Schedule 4 (Figure 1

Total Page:16

File Type:pdf, Size:1020Kb

Schedule 4 (Figure 1 Schedule 4 (Figure 1 - Vessels < 7.5m) Specified Areas for Class 2C Restricted or Class 3C Restricted . South Australia S S ° ° 2 2 3 3 Point Latitude Longitude Point Latitude Longitude 133°20'E 133°40'E 134°E 134°20'E 134°40'E S O U T H 1 32° 11.86' S 133° 25.42' E 8 34° 59.14' S 136° 0.13' E 1 A U S T R A L I A 2 32° 19.10' S 133° 29.88' E A U S T R A L I A 9 35° 2.11' S 136° 0.77' E S S ' ' 0 0 3 32° 28.27' S 133° 37.91' E 2 2 2 10 35° 3.90' S 136° 11.97' E ° ° 2 2 3 3 4 32° 34.91' S 133° 48.82' E 11 34° 48.91' S 136° 12.76' E 5 32° 56.69' S 134° 1.31' E 3 S o u tt h 12 34° 39.87' S 136° 21.52' E S S ° ° 3 6 33° 3.41' S 134° 5.99' E 3 3 13 34° 29.32' S 136° 17.09' E 3 4 A u s tt r a ll ii a S S 7 33° 11.47' S 134° 13.29' E ' ' 0 0 14 34° 29.32' S 137° 16.66' E 4 4 ° ° 2 2 3 3 See Inset A 15 34° 51.85' S 136° 57.71' E lf u 16 35° 9.21' S 137° 49.02' E G r e 17 35° 7.10' S 138° 24.40' E c 5 n S S 18 35° 28.10' S 138° 10.14' E ° ° e 3 3 p 3 3 S S S ° 6 19 35° 31.11' S 138° 10.14' E ° 4 4 3 3 20 35° 44.88' S 136° 35.60' E 7 21 35° 42.16' S 136° 35.60' E S S ' ' 22 35° 31.69' S 137° 19.31' E 0 0 14 2 2 ° Sources: Esri, GEBCO, NOAA, National ° 13 3 3 3 Geographic, DeLorme, HERE, 3 23 35° 31.05' S 137° 37.24' E 133°20'E 133°40'E 134°E 134°20'E 134°40'E Gulf Geonames.org, and other contributors 12 24 35° 50.53' S 138° 8.09' E St. Vincent 11 15 25 35° 33.60' S 138° 53.04' E S 8 S ° Inset A ° 5 5 3 26 36° 25.27' S 139° 45.77' E 3 9 10 17 27 36° 26.64' S 139° 42.46' E S o u t h e r n O c e a n 16 28 38° 3.38' S 140° 57.95' E 18 22 23 29 38° 6.39' S 140° 57.95' E 19 *GEODATA Coast 100K 2004 21 25 20 GEODATA Coast 100K 2004 is a vector representation of the topographic 24 S S ° ° features depicting Australia`s coastline, and State and Territory borders. 6 6 3 3 Data are derived from the1:100,000 scale National Topographic Map Series and contains: - Coastline features (as determined by Mean High Water) 27 26 - Survey Monument Points (survey points used to define State/Territory borders) - State and Territory land borders - Island features. Legend S S ° The coastline includes the main outline of the land and includes Coastline* ° 7 7 3 bays, the outer edge of mangroves and closes off narrow inlets and 3 watercourses at or near their mouths. Features of the 2004 release Areas extending seawards from the coastline of the include: Australian mainland to 3nm or to the limit as shown for: - Change of datum to GDA94 West Coast Eyre Peninsula - Provision of a national coverage in addition to State/Territory coverages; and - Additional points on the SA/VIC border. Spencer Gulf and Gulf St. Vincent S More information about this dataset is available on the Geoscience Australia S ° Kangaroo Island and Backstairs Passage ° 8 28 8 3 website at: 3 http://www.ga.gov.au/metadata-gateway/metadata/record/61395/ South East 29 Sources: Esri, GEBCO, NOAA, National Geographic, DeLorme, HERE, Geonames.org, and other contributors 130°E 131°E 132°E 133°E 134°E 135°E 136°E 137°E 138°E 139°E 140°E 141°E 0 50 100 150 200 250 Base Maps Coordinate System: GCS GDA 1994 Nautical Miles GEODATA COAST 100K 2004, Geoscience Australia Datum: GDA 1994 ESRI World Topographical Map Units: Degree ESRI Ocean Basemap Author: R.Henderson Date: 22/04/2016 Map name: sa_restricted_c_waters_layout AMSA Reference: C1004116048.
Recommended publications
  • 1 Australian Tidal Currents – Assessment of a Barotropic Model
    https://doi.org/10.5194/gmd-2021-51 Preprint. Discussion started: 14 April 2021 c Author(s) 2021. CC BY 4.0 License. Australian tidal currents – assessment of a barotropic model (COMPAS v1.3.0 rev6631) with an unstructured grid. David A. Griffin1, Mike Herzfeld1, Mark Hemer1 and Darren Engwirda2 1Oceans and Atmosphere, CSIRO, Hobart, TAS 7000, Australia 2Center for Climate Systems Research, Columbia University, New York City, NY, USA and NASA Goddard Institute for 5 Space Studies, New York City, NY, USA Correspondence to: David Griffin ([email protected]) Abstract. While the variations of tidal range are large and fairly well known across Australia (less than 1 m near Perth but more than 14 m in King Sound), the properties of the tidal currents are not. We describe a new regional model of Australian 10 tides and assess it against a validation dataset comprising tidal height and velocity constituents at 615 tide gauge sites and 95 current meter sites. The model is a barotropic implementation of COMPAS, an unstructured-grid primitive-equation model that is forced at the open boundaries by TPXO9v1. The Mean Absolute value of the Error (MAE) of the modelled M2 height amplitude is 8.8 cm, or 12 % of the 73 cm mean observed amplitude. The MAE of phase (10°), however, is significant, so the M2 Mean Magnitude of Vector Error (MMVE, 18.2 cm) is significantly greater. The Root Sum Square over the 8 major 15 constituents is 26% of the observed amplitude.. We conclude that while the model has skill at height in all regions, there is definitely room for improvement (especially at some specific locations).
    [Show full text]
  • Hydroscheme Industry Partnership Program (HIPP)
    HydroScheme Industry Partnership Program (HIPP) National Hydrographic Program Commander Nigel Townsend, RAN CPHS1 Assistant Director National Hydrographic Program The Need – Meeting Australia’s Obligations Defence has a long history of hydrographic survey and an ongoing obligation to the Nation: - United Nations Convention on the Law of the SEA (UNCLOS) - International Convention for the Safety of Life at SEA (SOLAS) - Navigation Act 2012 Demand is growing for a whole-of-Nation hydrographic and oceanographic data collection program Environmental data gathering requires significant investment - Greater demand drives a need to partner with Industry Current processes and way of doing business needs to change significantly to meet Australia’s current and future requirements HydroScheme Industry Partnership Program (HIPP) HIPP Strategic Objectives: - To obtain full, high quality EEZ bathy coverage by 2050 - To link Chart Datum to National Ellipsoid through development of AusHydriod by 2030 - Integrate HIPP activities into the National Plan for MBES Bathy Data Acquisition - Provide environmental data to baseline Australia’s marine estate - Support hydrographic survey of remote locations (AAT, Heard and McDonald Is) - Support development of an organic tertiary hydrographic education program - Build the Hydrographic Industry in Australia - Support regional capacity building programs - Adhere to intent of Aust Gov’s Data Availability and Use Policy HIPP - Phases HIPP has two major phases: - HIPP Phase 1: 2020 – 2024 (Ramp-up Period) - Priority
    [Show full text]
  • In South Australia – Stock Structure and Adult Movement
    SPATIAL MANAGEMENT OF SOUTHERN GARFISH (HYPORHAMPHUS MELANOCHIR) IN SOUTH AUSTRALIA – STOCK STRUCTURE AND ADULT MOVEMENT MA Steer, AJ Fowler, and BM Gillanders (Editors). Final Report for the Fisheries Research and Development Corporation FRDC Project No. 2007/029 SARDI Aquatic Sciences Publication No. F2009/000018-1 SARDI Research Report Series No. 333 ISBN 9781921563089 October 2009 i Title: Spatial management of southern garfish (Hyporhamphus melanochir) in South Australia – stock structure and adult movement Editors: MA Steer, AJ Fowler, and BM Gillanders. South Australian Research and Development Institute SARDI Aquatic Sciences 2 Hamra Avenue West Beach SA 5024 Telephone: (08) 8207 5400 Facsimile: (08) 8207 5406 http://www.sardi.sa.gov.au DISCLAIMER The authors do not warrant that the information in this document is free from errors or omissions. The authors do not accept any form of liability, be it contractual, tortious, or otherwise, for the contents of this document or for any consequences arising from its use or any reliance placed upon it. The information, opinions and advice contained in this document may not relate, or be relevant, to a readers particular circumstances. Opinions expressed by the authors are the individual opinions expressed by those persons and are not necessarily those of the publisher, research provider or the FRDC. © 2009 Fisheries Research and Development Corporation and SARDI Aquatic Sciences. This work is copyright. Apart from any use as permitted under the Copyright Act 1968 (Cwth), no part of this publication may be reproduced by any process, electronic or otherwise, without the specific written permission of the copyright owners. Neither may information be stored electronically in any form whatsoever without such permission.
    [Show full text]
  • The Impact of Sea-Level Rise on Tidal Characteristics Around Australia Alexander Harker1,2, J
    The impact of sea-level rise on tidal characteristics around Australia Alexander Harker1,2, J. A. Mattias Green2, Michael Schindelegger1, and Sophie-Berenice Wilmes2 1Institute of Geodesy and Geoinformation, University of Bonn, Bonn, Germany 2School of Ocean Sciences, Bangor University, Menai Bridge, United Kingdom Correspondence: Alexander Harker ([email protected]) Abstract. An established tidal model, validated for present-day conditions, is used to investigate the effect of large levels of sea-level rise (SLR) on tidal characteristics around Australasia. SLR is implemented through a uniform depth increase across the model domain, with a comparison between the implementation of coastal defences or allowing low-lying land to flood. The complex spatial response of the semi-diurnal M2 constituent does not appear to be linear with the imposed SLR. The most 5 predominant features of this response are the generation of new amphidromic systems within the Gulf of Carpentaria, and large amplitude changes in the Arafura Sea, to the north of Australia, and within embayments along Australia’s north-west coast. Dissipation from M2 notably decreases along north-west Australia, but is enhanced around New Zealand and the island chains to the north. The diurnal constituent, K1, is found to decrease in amplitude in the Gulf of Carpentaria when flooding is allowed. Coastal flooding has a profound impact on the response of tidal amplitudes to SLR by creating local regions of increased tidal 10 dissipation and altering the coastal topography. Our results also highlight the necessity for regional models to use correct open boundary conditions reflecting the global tidal changes in response to SLR.
    [Show full text]
  • Marine Debris Survey Information Guide
    Marine Debris Survey Information Guide Kristian Peters, Marine Debris Project Coordinator Adelaide and Mount Lofty Ranges Natural Resources Management Board Acknowledgements The Adelaide and Mount Lofty Ranges Natural Resources Management Board gratefully acknowledges the following contributors to this manual: • White, Damian. 2005. Marine Debris Survey Information Manual 2nd edition, WWF Marine Debris Project Arafura Ecoregion Program. WWF Australia • South Carolina Sea Grant Consortium • South Carolina Department of Health and Environmental Control Ocean and Coastal Resource Management • Centre for Ocean Sciences Education Excellence Southeast and NOAA 2008 • Chris Jordan • Images (cover from left): Kangaroo Island Natural Resources Management Board and Bill Doyle Photography This project is supported by the Adelaide and Mount Lofty Ranges Natural Resources Management Board through funding from the Australian Government’s Caring for our Country, the Whale and Dolphin Conservation Society and SeaLink. Disclaimer While every care is taken to ensure the accuracy of the information in this publication, the Adelaide and Mount Lofty Ranges Natural Resources Management Board takes no responsibility for its contents, nor for any loss, damage or consequence for any person or body relying on the information, or any error or omission in this publication. Printed on 100% recycled Australian-made paper from ISO 14001-accredited sources Marine Debris Survey Information Guide 1 Contents 1.0 Introduction ............................................................................................................................
    [Show full text]
  • The COROMANDEL and Others
    THE STORY OF THE 'COROMANDEL' IN PARTICULAR, 1834 3 MASTED SAILING SHIP. The COROMANDEL and others. In particular I have searched information regarding the 'Coromandel' ship, which, in 1836 was commissioned by the South Australian Company to transport emigrants to the new colony of South Australia and its soon to be established capital city of Adelaide. I have listed in these pages all details found, including a number of passengers. I have ascertained most who sailed in her, (but I certainly may have missed and/or misspelled some names). The ship sailed from St. Katherine's dock, London in 1836 arriving and disembarking the majority of her passengers at Holdfast Bay, Glenelg on January 17th 1837. Her journey was longer than planned as Captain William Chesser, her Master called in at Cape Town, Cape of Good Hope, South Africa and rested his many sick passengers back to good health with fresh fruit, vegetables and good water. Upon his return to Britain later in the year, he was called to task for the extended journey & brought before the Colonial office & the South Australian Company for interrogation. I have not, with any positive proof satisfied myself as to our "Coromandel's " final resting place, because the name was in popular use as a ship's name, and others so named have confused many people of her true journeys & destiny. She was definitely 662 tons, she was definitely built in 1834 in Quebec by George Black & Sons and she was a barque with sails set as 'ship' meaning all were squaremasted. There was a Coromandel ship that foundered in New Zealand, but I have not seen the description nor sketches of that ship.
    [Show full text]
  • HYDROGRAPHIC DEPARTMENT Charts, 1769-1824 Reel M406
    AUSTRALIAN JOINT COPYING PROJECT HYDROGRAPHIC DEPARTMENT Charts, 1769-1824 Reel M406 Hydrographic Department Ministry of Defence Taunton, Somerset TA1 2DN National Library of Australia State Library of New South Wales Copied: 1987 1 HISTORICAL NOTE The Hydrographical Office of the Admiralty was created by an Order-in-Council of 12 August 1795 which stated that it would be responsible for ‘the care of such charts, as are now in the office, or may hereafter be deposited’ and for ‘collecting and compiling all information requisite for improving Navigation, for the guidance of the commanders of His Majesty’s ships’. Alexander Dalrymple, who had been Hydrographer to the East India Company since 1799, was appointed the first Hydrographer. In 1797 the Hydrographer’s staff comprised an assistant, a draughtsman, three engravers and a printer. It remained a small office for much of the nineteenth century. Nevertheless, under Captain Thomas Hurd, who succeeded Dalrymple as Hydrographer in 1808, a regular series of marine charts were produced and in 1814 the first surveying vessels were commissioned. The first Catalogue of Admiralty Charts appeared in 1825. In 1817 the Australian-born navigator Phillip Parker King was supplied with instruments by the Hydrographic Department which he used on his surveying voyages on the Mermaid and the Bathurst. Archives of the Hydrographic Department The Australian Joint Copying Project microfilmed a considerable quantity of the written records of the Hydrographic Department. They include letters, reports, sailing directions, remark books, extracts from logs, minute books and survey data books, mostly dating from 1779 to 1918. They can be found on reels M2318-37 and M2436-67.
    [Show full text]
  • Conserving Marine Biodiversity in South Australia - Part 1 - Background, Status and Review of Approach to Marine Biodiversity Conservation in South Australia
    Conserving Marine Biodiversity in South Australia - Part 1 - Background, Status and Review of Approach to Marine Biodiversity Conservation in South Australia K S Edyvane May 1999 ISBN 0 7308 5237 7 No 38 The recommendations given in this publication are based on the best available information at the time of writing. The South Australian Research and Development Institute (SARDI) makes no warranty of any kind expressed or implied concerning the use of technology mentioned in this publication. © SARDI. This work is copyright. Apart of any use as permitted under the Copyright Act 1968, no part may be reproduced by any process without prior written permission from the publisher. SARDI is a group of the Department of Primary Industries and Resources CONTENTS – PART ONE PAGE CONTENTS NUMBER INTRODUCTION 1. Introduction…………………………………..…………………………………………………………1 1.1 The ‘Unique South’ – Southern Australia’s Temperate Marine Biota…………………………….…….1 1.2 1.2 The Status of Marine Protected Areas in Southern Australia………………………………….4 2 South Australia’s Marine Ecosystems and Biodiversity……………………………………………..9 2.1 Oceans, Gulfs and Estuaries – South Australia’s Oceanographic Environments……………………….9 2.1.1 Productivity…………………………………………………………………………………….9 2.1.2 Estuaries………………………………………………………………………………………..9 2.2 Rocky Cliffs and Gulfs, to Mangrove Shores -South Australia’s Coastal Environments………………………………………………………………13 2.2.1 Offshore Islands………………………………………………………………………………14 2.2.2 Gulf Ecosystems………………………………………………………………………………14 2.2.3 Northern Spencer Gulf………………………………………………………………………...14
    [Show full text]
  • A Precious Asset
    Gulf St Vincent A PRECIOUS ASSET Gulf St Vincent A PRECIOUS AssET Introduction It is more than 70 years since Since that time, the Gulf has We need these people, and other William Light sailed up the eastern provided safe, reliable transport for members of the Gulf community, side of Gulf St Vincent, looking for most of our produce and material to share their knowledge, to the entrance to a harbour which needs, as well as fresh fish, coastal make all users of the Gulf aware had been reported by the explorer, living, recreation and inspiration. of its value, its benefits and its Captain Collet Barker, and the In return we have muddied its vulnerability. It is time for us all to whaling captain, John Jones. waters with stormwater, effluent learn more about Gulf St Vincent, He found waters calm and clear and industrial wastes, bulldozed to recognise the priceless asset enough to avoid shoals and to its dunes, locked up sand under we have, and to do our utmost to safely anchor through the spring houses and greedily exploited its reverse the trail of destruction we gales blowing from the south-west. marine life. Just reflect a moment have left in the last 00 years. Perhaps even he saw sea eagles on what Adelaide in particular, and The more we know of the Gulf, fishing or nesting in the low trees South Australia as a whole, would its physical nature and marine life, and bushes on the dunes, which be like without Gulf St Vincent, to the more readily we recognise extended along the coast from realise the importance of the Gulf the threats posed by increasing Brighton to the Port River.
    [Show full text]
  • The Impact of Sea-Level Rise on Tidal Characteristics Around Australasia Alexander Harker1,2, J.A
    Ocean Sci. Discuss., https://doi.org/10.5194/os-2018-104 Manuscript under review for journal Ocean Sci. Discussion started: 6 September 2018 c Author(s) 2018. CC BY 4.0 License. The impact of sea-level rise on tidal characteristics around Australasia Alexander Harker1,2, J.A. Mattias Green2, and Michael Schindelegger1 1Institute of Geodesy and Geoinformation, University of Bonn, Bonn, Germany 2School of Ocean Sciences, Bangor University, Menai Bridge, United Kingdom Correspondence: Alexander Harker ([email protected]) Abstract. An established tidal model, validated for present-day conditions, is used to investigate the effect of large levels of sea-level rise (SLR) on tidal characteristics around Australasia. SLR is implemented through a uniform depth increase across the model domain, with a comparison between the coastal boundary being treated as impenetrable or allowing low-lying land to flood. The complex spatial response of the semi-diurnal constituents, M2 and S2, is broadly similar, with the magnitude of 5 M2’s response being greater. The most predominant features of this response are large amplitude changes in the Arafura Sea and within embayments along Australia’s north-west coast, and the generation of new amphidromic systems within the Gulf of Carpentaria and south of Papua, once water depth across the domain is increased by 3 and 7 m respectively. Dissipation from M2 increases around the islands in the north of the Sahul shelf region and around coastal features along north Australia, leading to a notable drop in dissipation along Eighty Mile Beach. The diurnal constituent, K1, is found to be amplified within the Gulf 10 of Carpentaria, indicating a possible change of resonance properties of the gulf.
    [Show full text]
  • Adelaide International Bird Sanctuary Flyway Partnership Report
    Adelaide International Bird Sanctuary Flyway Partnership Report Report by The Nature Conservancy For the: Department of Environment, Water and Natural Resources, South Australia 27 March 2018 The lead author of this document was David Mehlman of The Nature Conservancy’s Migratory Bird Program, with significant input, editing, and other assistance from James Fitzsimons and Anita Nedosyko of The Nature Conservancy’s Australia Program and Boze Hancock from The Nature Conservancy’s Global Oceans Team. Acknowledgements We thank the Government of South Australia, Department of Environment, Water and Natural Resources, for funding this work under an agreement with The Nature Conservancy Australia. Helpful advice and comments on various aspects of this project were received from Mark Carey, Tony Flaherty, Rich Fuller, Michaela Heinson, Arkellah Irving, Jason Irving, Micha Jackson, Spike Millington, Chris Purnell, Phil Straw, Connie Warren, Doug Watkins, and Dan Weller. 2 Table of Contents List of Figures ................................................................................................................................................ 4 List of Tables ................................................................................................................................................. 4 Executive Summary ....................................................................................................................................... 5 Overview of the Adelaide International Bird Sanctuary ..............................................................................
    [Show full text]
  • Your Local Guide to Yorkes' Holiday Country
    CENTRAL & SOUTHERN 2021 EDITION YORKE PENINSULA SOUTH AUSTRALIA Your Local guide to Yorkes’ Holiday Country Sue Hancock Photography S CONTENT WELCOME Visitor Information _______________4 See Yorkes like a Local ___________5 Walk the Yorke __________________6 Innes National Park ______________8 Drop a Line In _________________ 10 Where to stay on Yorkes _______ 10 Bush Camping on Yorkes _______ 11 Annual Events _________________ 12 Library Services ________________ 12 Dining Out on Yorkes __________ 13 Ardrossan _____________________ 14 Arthurton______________________ 15 WELCOME TO YORKE PENINSULA Balgowan _____________________ 15 Nharangga Dhura marni Black Point ____________________ 16 Nharangganu Banggara . a place for all seasons Brentwood ____________________ 16 Nharungga people welcome you to You can truly smell the salty sea air, Savvy “grey nomads” heading our Nharangga country. with water on three sides you are never way need only visit local tourist Coobowie ____________________ 16 more than 25km from the ocean at any outlets and check out the map in the For tens of thousands of years Corny Point ___________________ 17 point – and you’re spoilt for choice with centre of the Visitor’s Guide to locate Nharangga people have lived in Curramulka ___________________ 17 sheltered coves to crashing surf breaks the many free, or at the very least harmony with the spectacular lands and deserted stretches of pristine white inexpensive places to set up camp. If Yorke Peninsula Map __________ 18 of Yorke Peninsula Their country sand in every direction. it’s a caravan park you’re after there provided them with food, shelter, Edithburgh ____________________ 20 Prior to European settlement around are excellent park facilities available water, ceremony and a rich and Hardwicke Bay ________________ 21 1840, Yorke Peninsula was home to right across the peninsula, with the vibrant culture.
    [Show full text]